TSMC marketing chief says to expect more and more powerful phones for the foreseeable future

TSMC marketing chief says to expect more and more powerful phones for the foreseeable future
Based on an observation by Intel co-founder Gordon Moore back in the 1960's, Moore's Law states that the number of transistors inside an integrated circuit doubles every other year. Originally, the "Law" called for the transistor count to double every year. With companies like TSMC and Samsung churning out 7nm process chips and working on 5nm production for next year, there is a question about how much longer Moore's Law has to run. Last year, Samsung revealed a roadmap taking it to 3nm chips by 2022 and TSMC is also working out the logistics so it too can produce 3nm chips in a few years.

The reason why this is important is that the more transistors that fit inside an IC, the more powerful and energy efficient a chip is. For example, the Apple A4 SoC used inside 2010's Apple iPhone 4 and the original Apple iPad were manufactured using the 45nm process. That compares to the 7nm process used to produce the A12 Bionic SoC used on the 2018 iPhone series. Want to blow your mind? The 5nm chips rolling off of the assembly lines next year will have 171.3 million transistors per square millimeter.

TSMC says that Moore's Law is not dead


Last week, TSMC global marketing chief Godfrey Cheng wrote about the future of Moore's Law. TSMC is the world's largest semiconductor foundry and manufacturers the chips designed by companies like Apple, Huawei, Qualcomm and others. In his post, Cheng says that TSMC still has many more years of innovation ahead during which it will continue to shrink the size of individual transistors and fit more of them into a dense location.


Cheng notes that since Moore's Law is essentially based on increasing density, there are various things that can be done to squeeze more transistors into integrated circuits. One way is through improved packaging, which is industry jargon for the a chip's housing. Another possibility is to move away from silicon and toward two-dimensional materials. To this end, Cheng says that TSMC is going through the periodic table looking for such a material. Eventually, TSMC will stack transistors on top of each other instead of placing them side-by-side.



We should be hearing more about Moore's Law this coming week during the Hot Chips Symposium on High Performance Chips that starts tomorrow in Palo Alto, California. On Tuesday, TSMC's VP of Corporate Research, Dr. Philip Wong, will give a talk titled "What Will the Next Node Offer Us?" The most obvious answer is more powerful and energy efficient handsets.

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9 Comments

1. aegislash

Posts: 1495; Member since: Jan 27, 2015

In other news: water is wet.

2. Buttfrags

Posts: 12; Member since: Feb 28, 2019

Well technically water itself isn't wet but I see the point of your comment nonetheless.

3. AngelicusMaximus

Posts: 691; Member since: Dec 20, 2017

Sounds like a really sharp guy.

4. User123456789

Posts: 912; Member since: Feb 22, 2019

So the phones of 2025 will open an app 0,0025s faster than phones from 2016. Cool.

8. josephnero

Posts: 780; Member since: Nov 16, 2011

In other words we should stop progress and innovation.

10. User123456789

Posts: 912; Member since: Feb 22, 2019

Phones are fast enough. Companies need to stop killing features, Sony mainly.

12. Subie

Posts: 2361; Member since: Aug 01, 2015

Yup, and 640Kb ram in a PC should be more than enough for anybody ;)

5. L0n3n1nja

Posts: 1557; Member since: Jul 12, 2016

I still find a snap dragon 800 fast enough for a phone but I welcome better performance anyway.

11. ahmadkun

Posts: 586; Member since: May 02, 2016

phones keep getting powerful to run WhatsApp and Instagram,

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